Bioelectronics can seamlessly integrate with the human body and other biological systems, both non-invasively as wearables and invasively as implants. We design micromechanical structures that can deform passively or actively, and integrate them into bioelectronics to catalyze advancements in diagnosis and therapy. We refer to these deformable devices as 'micromechanical bioelectronics'.

 

We incorporate 3D designs, magnetic materials, and robotic structures into our micromechanical bioelectronics to promote the development of electronics skins, wireless biosensors, and microrobotics, with the ultimate goal of advancing human health and deepening our understanding of living systems.